NutritionVerse3D2D: Large 3D Object and 2D Image Food Dataset for Dietary Intake Estimation

Elderly populations often face significant challenges when it comes to dietary intake tracking, often exacerbated by health complications. Unfortunately, conventional diet assessment techniques such as food frequency questionnaires, food diaries, and 24 h recall are subject to substantial bias. Recent advancements in machine learning and computer vision show promise of automated nutrition tracking methods of food, but require a large, high-quality dataset in order to accurately identify the nutrients from the food on the plate. However, manual creation of large-scale datasets with such diversity is time-consuming and hard to scale. On the other hand, synthesized 3D food models enable view augmentation to generate countless photorealistic 2D renderings from any viewpoint, reducing imbalance across camera angles. In this paper, we present a process to collect a large image dataset of food scenes that span diverse viewpoints and highlight its usage in dietary intake estimation. We first collect quality 3D objects of food items (NV-3D) that are used to generate photorealistic synthetic 2D food images (NV-Synth) and then manually collect a validation 2D food image dataset (NV-Real). We benchmark various intake estimation approaches on these datasets and present NutritionVerse3D2D, a collection of datasets that contain 3D objects and 2D images, along with models that estimate intake from the 2D food images. We release all the datasets along with the developed models to accelerate machine learning research on dietary sensing.

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Published
2025-11-04
DOI
https://doi.org/10.3390/data10110180
Primary Topic
Nutritional Studies and Diet
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article
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article

NutritionVerse3D2D: Large 3D Object and 2D Image Food Dataset for Dietary Intake Estimation

Saeejith Nair, Yifan Wu, Chi-en Amy Tai, Alexander M. Wong et al.
Data
Nutritional Studies and Diet
article

NutritionVerse3D2D: Large 3D Object and 2D Image Food Dataset for Dietary Intake Estimation

Saeejith Nair, Yifan Wu, Chi-en Amy Tai, Alexander M. Wong, Krish Parmar, Pengcheng Xi, Olivia Markham, Yuhao Chen, Matthew Keller
article en

Abstract

Elderly populations often face significant challenges when it comes to dietary intake tracking, often exacerbated by health complications. Unfortunately, conventional diet assessment techniques such as food frequency questionnaires, food diaries, and 24 h recall are subject to substantial bias. Recent advancements in machine learning and computer vision show promise of automated nutrition tracking methods of food, but require a large, high-quality dataset in order to accurately identify the nutrients from the food on the plate. However, manual creation of large-scale datasets with such diversity is time-consuming and hard to scale. On the other hand, synthesized 3D food models enable view augmentation to generate countless photorealistic 2D renderings from any viewpoint, reducing imbalance across camera angles. In this paper, we present a process to collect a large image dataset of food scenes that span diverse viewpoints and highlight its usage in dietary intake estimation. We first collect quality 3D objects of food items (NV-3D) that are used to generate photorealistic synthetic 2D food images (NV-Synth) and then manually collect a validation 2D food image dataset (NV-Real). We benchmark various intake estimation approaches on these datasets and present NutritionVerse3D2D, a collection of datasets that contain 3D objects and 2D images, along with models that estimate intake from the 2D food images. We release all the datasets along with the developed models to accelerate machine learning research on dietary sensing.

DataVol. 10(11)
University of Waterloo (CA), National Research Council Canada (CA)
Openalex Percentile: Top 57%
Nutritional Studies and Diet
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